IsInt[et] = true
	}
	IsInt[TINT] = true
	IsInt[TUINT] = true
	IsInt[TUINTPTR] = true

	IsFloat[TFLOAT32] = true
	IsFloat[TFLOAT64] = true

	IsComplex[TCOMPLEX64] = true
	IsComplex[TCOMPLEX128] = true
}

func makeErrorInterface() *Type {
	sig := NewSignature(FakeRecv(), nil, []*Field{
		NewField(src.NoXPos, nil, Types[TSTRING]),
	})

		panic("unreachable")
	}
	a := s.Sizeof(T) // may be 0 or negative
	// spec: "For a variable x of any type: unsafe.Alignof(x) is at least 1."
	if a < 1 {
		return 1
	}
	// complex{64,128} are aligned like [2]float{32,64}.
	if isComplex(T) {
		a /= 2
	}
	if a > s.MaxAlign {
		return s.MaxAlign
	}
	return a
}

func (s *gcSizes) Offsetsof(fields []*Var) []int64 {
	offsets := make([]int64, len(fields))

	uc16 = uc2 /* ERROR "not defined" */ & uc3
	uc17 = uc2 /* ERROR "not defined" */ | uc3
	uc18 = uc2 /* ERROR "not defined" */ ^ uc3
)

type (
	mybool bool
	myint int
	myfloat float64
	mycomplex complex128
)

// typed constants
const (
	// boolean values
	tb0 bool = false
	tb1 bool = true
	tb2 mybool = 2 < 1
	tb3 mybool = ti1 == tf1 /* ERROR "mismatched types" */

  %0 = "tf.Conj"(%arg0) : (tensor<complex<f32>>) -> tensor<complex<f32>>
  %1 = "tf.Conj"(%0) : (tensor<complex<f32>>) -> tensor<complex<f32>>
  // CHECK: return [[ARG0]]
  func.return %1: tensor<complex<f32>>
}

// CHECK-LABEL: func @testTripleConj
// CHECK-SAME:  ([[ARG0:%.+]]: tensor<complex<f32>>)
func.func @testTripleConj(%arg0: tensor<complex<f32>>) -> tensor<complex<f32>> {

	}
	type Int512 struct {
		a1, a2, a3, a4, a5, a6, a7, a8, a9, a10, a11, a12, a13, a14, a15, a16 [16]S
	}
	s := struct {
		ArrayComparable      [4]T
		ArrayIncomparable    [4]_Complex
		StructComparable     T
		StructIncomparable   _Complex
		ArrayInt_4           [4]int
		ArrayInt_1024        [1024]int
		ArrayInt_1024_NoZero [1024]int
		Struct4Int           Int4
		ArrayStruct4Int_1024 [256]Int4

				return true
			}
		}
	}

	// "V and T are both integer or floating point types"
	if isIntegerOrFloat(Vu) && isIntegerOrFloat(Tu) {
		return true
	}

	// "V and T are both complex types"
	if isComplex(Vu) && isComplex(Tu) {
		return true
	}

	// "V is an integer or a slice of bytes or runes and T is a string type"
	if (isInteger(Vu) || isBytesOrRunes(Vu)) && isString(Tu) {
		return true
	}

		return -a
	}
	return a
}

// Complex matches the two complex types, which do not have a < operator.
type Complex interface {
	~complex64 | ~complex128
}

func realimag(x any) (re, im float64) {
	switch z := x.(type) {
	case complex64:
		re = float64(real(z))
		im = float64(imag(z))
	case complex128:
		re = real(z)
		im = imag(z)
	default:
		panic("unknown complex type")
	}
	return
}

type OrderedNumeric interface {
	~int | ~int8 | ~int16 | ~int32 | ~int64 |
		uint | ~uint8 | ~uint16 | ~uint32 | ~uint64 | ~uintptr |
		float32 | ~float64
}

// Complex is a type bound that matches the two complex types, which do not have a < operator.
type Complex interface {
	~complex64 | ~complex128
}

// OrderedAbs is a helper type that defines an Abs method for
// ordered numeric types.
type OrderedAbs[T OrderedNumeric] T

type orderedNumeric interface {
	~int | ~int8 | ~int16 | ~int32 | ~int64 |
		~uint | ~uint8 | ~uint16 | ~uint32 | ~uint64 | ~uintptr |
		~float32 | ~float64
}

// Complex matches the two complex types, which do not have a < operator.
type Complex interface {
	~complex64 | ~complex128
}

// orderedAbs is a helper type that defines an Abs method for
// a struct containing an ordered numeric type.

// license that can be found in the LICENSE file.

package main

import (
	"fmt"
)

type Complex interface {
	~complex64 | ~complex128
}

func zero[T Complex]() T {
	return T(0)
}
func pi[T Complex]() T {
	return T(3.14)
}
func sqrtN1[T Complex]() T {
	return T(-1i)
}

func main() {
	fmt.Println(zero[complex128]())
	fmt.Println(pi[complex128]())